You keep saying this, but why do you think it supports your fantasy? Do you really not understand the concept of relativity? Your motion relative to some star does not change the physics of what's going on at the star; it may, however, change what you observe.
If you want to claim otherwise, please show your work. (You know, that math stuff.)
e=mc
2 A mass converts to to this much energy Kg/m/sec/joule/larch trees
It is a lousy equation when determining both time dilation and energy.
A mass can have many more times it conversion energy, and it is still below the speed of light.
Energy e=mc
2 equivalent to a mass moving at c without any time dilation or inertial mass compensation.
Compare the two
e=mc
2 mv
2
What happened to dividing by two in e=mc
2?
If a mass has more energy (mass energy+kinetic energy) time expands to contain it.
The container of time allows mass at time =1 to equal the mass at velocity zero c
2equivalent kinetic energy.
SQRT((c
2+v
2)/c
2)= time (Equ. 1)
Time dilation >1
The energy increase c
2+v
2 is split between time and inertial mass. The change in Inertial mass equals the expansion of time.
The numeric result according to Equ. 1 is also the same as the (inertial) mass increase. Because time did not expand at the full change in energy but at the square root of the energy increase. Mass (as inertial mass) has increased to obey conservation.
If gravitational mass always equals inertial mass, then the gravitational mass has increased the same amount as time has expanded.
So time has expanded and mass has expanded. So the nuclear reactions would take longer than normal to complete.
This would result in less energy being available to resist the increasing gravitational attraction.
If gravitational mass always equals inertial mass, then the gravitational mass has increased. When gravitational mass increases, the force of gravity increases.
This leads to a condition where the star will always collapse (at some point) will increasing velocity.
Therefore, Gravitational Mass does NOT always equal Inertial Mass.
FALSE Gravitational Mass always equals Inertial Mass